Legal claims defining the scope of protection. Each claim is shown in both the original legal language and a plain English translation.
1. An information processing apparatus, comprising: a plurality of types of sensors, wherein a first type of sensor of the plurality of types of sensors is a sound pickup sensor, and the sound pickup sensor is configured to pick up audio data; a plurality of types of actuators; a communicating part configured to wirelessly transmit the audio data picked up by the sound pickup sensor to an outside of the information processing apparatus; a control part configured to: control the plurality of types of sensors, the plurality of types of actuators, and the communicating part; and control at least one of turn on or turn off of each of the plurality of types of sensors and each of the plurality of types of actuators; a power source part a configured to supply power to at least one of the sound pickup sensor, the communicating part, or the control part; a housing part that accommodates therein at least one of the sound pickup sensor, the communicating part, the control part, or the power source part; and an adhering part configured to fix the housing part to a user at an adhesion point, wherein the control of the at least one of the turn on or the turn off is based on the adhesion point at which the housing part is fixed to the user.
This invention relates to a wearable information processing apparatus designed for efficient power management and user interaction. The device includes multiple types of sensors, with at least one being a sound pickup sensor for capturing audio data. It also features multiple actuators, a wireless communication module to transmit the audio data externally, and a control unit that manages the sensors, actuators, and communication functions. The control unit can selectively activate or deactivate individual sensors and actuators based on the device's attachment point on the user's body. The apparatus is powered by an internal power source and housed in a compact casing, which is secured to the user via an adhesive component. The system optimizes power consumption by dynamically adjusting sensor and actuator states according to the specific adhesion location, ensuring functionality while conserving energy. This design is particularly useful for wearable devices requiring adaptable sensing and communication capabilities.
2. The information processing apparatus according to claim 1 , wherein the sound pickup sensor is further configured to pick up a sound based on flesh conduction of the user.
This invention relates to an information processing apparatus designed to enhance user interaction by utilizing sound pickup sensors that detect sounds through flesh conduction. The apparatus addresses the challenge of accurately capturing user-generated sounds, such as voice commands or other audio inputs, in environments where traditional air conduction microphones may be ineffective or unreliable. By leveraging flesh conduction, the sound pickup sensor detects vibrations transmitted through the user's body, improving signal clarity and reducing interference from ambient noise. The apparatus includes a sound pickup sensor configured to detect sounds via flesh conduction, where the sensor is positioned to contact the user's skin, such as on the face, neck, or other body parts. The sensor converts these vibrations into electrical signals, which are then processed to extract meaningful audio data. This method ensures that the apparatus can reliably capture user inputs even in noisy or acoustically challenging environments, such as during physical activity or in crowded spaces. Additionally, the apparatus may incorporate features to optimize sound detection, such as filtering techniques to isolate relevant audio signals from background noise. The system may also include processing components to analyze the captured sounds, enabling applications like voice recognition, biometric authentication, or health monitoring. By integrating flesh conduction-based sound pickup, the apparatus provides a robust solution for scenarios where conventional microphones fall short, enhancing user experience and system accuracy.
3. The information processing apparatus according to claim 1 , wherein a second type of sensor of the plurality of types of sensors is a biological sensor, the biological sensor is configured to detect biological information of the user, and the control part is further configured to control process of the audio data based on the biological information detected by the biological sensor.
An information processing apparatus is designed to enhance user interaction by integrating multiple sensor types, including biological sensors, to dynamically adjust audio processing based on user physiological data. The apparatus includes a plurality of sensors that monitor various environmental and user-specific parameters, such as motion, ambient noise, and biological signals. A biological sensor, such as a heart rate monitor or EEG device, detects real-time biological information from the user, such as stress levels, fatigue, or cognitive load. A control unit processes this biological data to modify audio output, such as adjusting volume, tone, or playback speed to optimize user experience. For example, if the biological sensor detects elevated stress levels, the apparatus may lower audio volume or switch to a calming sound profile. The system ensures seamless adaptation to the user's physiological state, improving comfort and engagement in applications like virtual reality, gaming, or health monitoring. The apparatus may also incorporate other sensors, such as microphones or accelerometers, to further refine audio adjustments based on environmental conditions. This adaptive approach enhances accessibility and personalization in audio-based systems.
4. The information processing apparatus according to claim 3 , wherein the control part is further configured to control intermittent reproduction of the audio data based on the biological information detected by the biological sensor.
This invention relates to an information processing apparatus equipped with a biological sensor for detecting biological information, such as heart rate or brain activity, and a control part that adjusts audio data playback based on the detected biological information. The apparatus is designed to enhance user engagement or relaxation by dynamically modifying audio playback in response to real-time physiological feedback. The control part can adjust playback parameters like volume, tempo, or frequency content to align with the user's detected state, such as stress levels or focus. In one embodiment, the control part further enables intermittent reproduction of audio data, where playback is paused or modified at intervals based on the biological sensor data. This intermittent control may be used to create a more immersive or therapeutic audio experience, such as in meditation or biofeedback applications. The apparatus may be integrated into wearable devices, headphones, or standalone systems for personalized audio processing. The invention addresses the need for adaptive audio systems that respond to user physiology, improving user experience in applications like health monitoring, entertainment, or therapeutic interventions.
5. The information processing apparatus according to claim 3 , wherein the control part is further configured to: control generation of an integrated signal; and control output of the integrated signal via the communicating part, the integrated signal includes the audio data and the biological information, and the audio data is synchronized with the biological information in a temporal direction.
This invention relates to an information processing apparatus designed to integrate and synchronize audio data with biological information for output. The apparatus includes a control part that generates an integrated signal combining audio data and biological information, ensuring temporal synchronization between the two. The biological information may include physiological data such as heart rate, brainwaves, or other biometric measurements. The control part also manages communication via a communicating part, which transmits the integrated signal to external devices or systems. This synchronization allows for accurate correlation between audio events and biological responses, useful in applications like medical diagnostics, biofeedback systems, or research studies. The apparatus may also include a storage part for retaining the integrated signal or raw data, and an input part for receiving biological information from sensors or other sources. The invention addresses the need for precise temporal alignment of audio and biological data, enabling more reliable analysis and interpretation of physiological responses to auditory stimuli.
6. The information processing apparatus according to claim 1 , wherein a second type of sensor of the plurality of types of sensors is an adhesion sensor, the adhesion sensor is configured to detect an adhesion state of the adhering part with the user, and the control part is further configured to control an operation of the information processing apparatus based on the adhesion state detected by the adhesion sensor.
An information processing apparatus includes multiple sensors of different types, where at least one sensor is an adhesion sensor. The adhesion sensor detects the adhesion state of an adhering part of the apparatus with a user, such as whether the apparatus is properly attached to the user's body or equipment. The control unit of the apparatus adjusts its operation based on the detected adhesion state. For example, if the sensor detects poor adhesion, the apparatus may reduce functionality, alert the user, or initiate corrective actions. This ensures reliable performance by monitoring and responding to the physical connection between the apparatus and the user. The system may also include other sensor types, such as motion or environmental sensors, to enhance functionality. The adhesion sensor provides feedback to maintain operational integrity, particularly in applications where secure attachment is critical, such as wearable devices or medical monitoring systems. The control unit processes the adhesion data to optimize performance, safety, or user experience.
7. The information processing apparatus according to claim 1 , wherein a type of actuator of the plurality of types of actuators is a speaker, and the housing part is fixed to a back of an ear of the user by the adhering part.
This invention relates to an information processing apparatus designed for wearable applications, particularly for devices that interact with a user's ear. The apparatus includes a housing part that contains electronic components and is secured to the back of a user's ear using an adhering part, such as an adhesive or a clip. The apparatus incorporates multiple types of actuators, including at least one speaker, to provide auditory feedback or other functions. The speaker is integrated into the housing part, allowing sound to be directed toward the user's ear canal. The adhering part ensures stable positioning of the apparatus on the ear, minimizing movement during use. The apparatus may also include other actuators, such as haptic or tactile feedback mechanisms, to enhance user interaction. The design focuses on compactness and ergonomics, ensuring comfort and functionality for extended wear. This invention addresses the need for lightweight, non-intrusive wearable devices that provide sensory feedback while maintaining secure attachment to the user's ear.
8. The information processing apparatus according to claim 1 , wherein a type of actuator of the plurality of types of actuators is a displaying part.
The invention relates to an information processing apparatus designed to control multiple actuators of different types, with a focus on improving user interaction by dynamically adjusting actuator operations based on environmental conditions. The apparatus includes a sensor system that detects environmental factors such as temperature, humidity, or ambient light, and a control unit that processes sensor data to determine optimal actuator responses. One of the actuators is a display component, which can adjust its output—such as brightness, contrast, or content—based on the detected conditions. For example, in bright environments, the display may increase brightness for better visibility, while in low-light conditions, it may dim to reduce eye strain. The apparatus ensures efficient and context-aware operation of actuators, enhancing user experience and energy efficiency. The system may also include other actuators like speakers, motors, or haptic feedback devices, each controlled similarly to adapt to environmental changes. The invention addresses the need for adaptive user interfaces that respond intelligently to varying conditions without manual adjustments.
9. The information processing apparatus according to claim 1 , wherein a second type of sensor of the plurality of types of sensors is an imaging sensor.
The invention relates to an information processing apparatus equipped with multiple types of sensors, including an imaging sensor, for enhanced data acquisition and processing. The apparatus is designed to address limitations in traditional sensor-based systems that rely on a single type of sensor, which can result in incomplete or inaccurate data collection. By integrating multiple sensor types, including an imaging sensor, the apparatus improves environmental awareness, enabling more precise and context-aware decision-making. The imaging sensor captures visual data, which may be combined with inputs from other sensors, such as motion, temperature, or proximity sensors, to provide a comprehensive understanding of the surroundings. The apparatus processes this multi-modal data to generate actionable insights, such as object recognition, environmental mapping, or user interaction tracking. The inclusion of an imaging sensor allows for visual verification of sensor readings, reducing errors and enhancing reliability. The system may be applied in robotics, smart environments, or autonomous systems where accurate perception of the environment is critical. The apparatus dynamically adjusts sensor operations based on environmental conditions, optimizing power consumption and data accuracy. This multi-sensor approach ensures robust performance in diverse scenarios, from industrial automation to consumer electronics.
10. The information processing apparatus according to claim 1 , wherein a second type of sensor of the plurality of types of sensors is a vibration sensor, the vibration sensor is configured to detect vibration data of a body of the user, and the control part is further configured to recognize the adhesion point based on the vibration data of the body of the user.
This invention relates to an information processing apparatus designed to recognize a user's adhesion point, such as a touch or contact point, using multiple types of sensors. The apparatus addresses the challenge of accurately detecting and interpreting user interactions, particularly in scenarios where traditional touch sensors may be insufficient or unreliable. The system includes a plurality of sensors, including at least one vibration sensor, which detects vibration data from the user's body. The control part of the apparatus processes this vibration data to determine the adhesion point, enhancing the accuracy and reliability of interaction recognition. By leveraging vibration data, the apparatus can distinguish between different types of user inputs and improve responsiveness in applications such as touch interfaces, gesture recognition, or wearable devices. The vibration sensor complements other sensor types, providing additional contextual information to refine the detection process. This approach ensures robust performance even in noisy environments or when dealing with subtle user movements. The invention is particularly useful in applications requiring precise and dynamic interaction tracking, such as medical devices, industrial interfaces, or consumer electronics.
11. The information processing apparatus according to claim 1 , wherein the housing part has flexibility.
This invention relates to an information processing apparatus with a flexible housing. The apparatus includes a housing part that encloses internal components and provides structural support. The flexibility of the housing allows it to deform under external forces, such as bending or twisting, without damaging the internal components. This design enhances durability and usability in environments where the apparatus may be subjected to physical stress. The flexible housing can be made from materials such as elastomers, polymers, or composite materials that provide both flexibility and structural integrity. The apparatus may also include additional features, such as impact-resistant layers or shock-absorbing elements, to further protect internal components. The flexible housing can be integrated with other structural elements, such as hinges or joints, to allow controlled deformation while maintaining functionality. This invention addresses the need for robust, adaptable information processing devices that can withstand physical strain while maintaining performance.
12. The information processing apparatus according to claim 1 , further comprising a substrate part that includes circuit pieces, wherein the circuit pieces are on the substrate part, the circuit pieces include the sound pickup sensor, the communicating part, and the control part, and the housing part accommodates therein the substrate part.
This invention relates to an information processing apparatus designed for efficient integration of sound pickup, communication, and control functions within a compact housing. The apparatus addresses the challenge of miniaturizing electronic devices while maintaining robust functionality by consolidating key components onto a single substrate. The substrate includes multiple circuit pieces, such as a sound pickup sensor for capturing audio, a communication module for data transmission, and a control unit for managing operations. These components are mounted directly onto the substrate, which is then enclosed within a housing. The housing provides structural support and protection while allowing the apparatus to maintain a small form factor. The design ensures seamless interaction between the sound pickup sensor, communication module, and control unit, enabling efficient processing and transmission of audio data. This configuration is particularly useful in applications requiring compact, high-performance devices, such as wearable electronics or portable communication tools. The invention optimizes space utilization and simplifies manufacturing by integrating essential components onto a unified substrate, reducing the need for separate circuit boards or connectors. The housing further enhances durability and portability, making the apparatus suitable for various environments.
13. The information processing apparatus according to claim 12 , wherein the substrate part further includes slits in at least two directions, and the substrate part has at least one of flexibility or stretchability.
This invention relates to an information processing apparatus with a flexible or stretchable substrate part designed for advanced functionality. The apparatus includes a substrate part that incorporates slits in at least two directions, enhancing its flexibility or stretchability. These slits allow the substrate to deform without damaging its structural integrity, making it suitable for applications requiring adaptability to various shapes or movements. The substrate part may also include a base layer, a wiring layer, and a protective layer, where the wiring layer contains conductive patterns for electrical connectivity. The protective layer shields the wiring layer from environmental factors, ensuring durability. The base layer provides structural support while maintaining flexibility or stretchability. The slits in the substrate part are strategically placed to optimize deformation capabilities, allowing the apparatus to conform to curved surfaces or dynamic movements. This design addresses the challenge of integrating flexible or stretchable electronics into devices that require both durability and adaptability, such as wearable technology, flexible displays, or medical sensors. The invention ensures reliable performance under mechanical stress while maintaining electrical functionality.
14. The information processing apparatus according to claim 1 , wherein the adhering part includes at least one aperture.
This invention relates to an information processing apparatus designed to improve data handling efficiency, particularly in systems where physical media or components require precise alignment or attachment. The apparatus includes an adhering part that securely attaches components or media to a processing unit, ensuring stable operation. A key feature is that the adhering part contains at least one aperture, which allows for ventilation, weight reduction, or access to internal components. The aperture may also facilitate the integration of additional elements, such as sensors or connectors, enhancing functionality. The adhering part may be part of a larger assembly that includes a base structure, alignment mechanisms, or locking features to ensure proper positioning and retention of attached components. The apparatus is particularly useful in environments where thermal management, modularity, or ease of maintenance is critical, such as in computing devices, storage systems, or industrial automation equipment. The inclusion of apertures in the adhering part addresses challenges related to overheating, structural rigidity, and component accessibility, improving overall system performance and reliability.
15. The information processing apparatus according to claim 1 , further comprising a body fluid processing part on the adhering part.
This invention relates to an information processing apparatus designed to handle body fluids, such as blood or other biological samples, in a controlled and automated manner. The apparatus includes a body fluid processing component integrated with an adhering part, which is likely a surface or mechanism that secures or positions the fluid sample for analysis. The body fluid processing part is responsible for tasks such as filtering, separating, or analyzing the fluid, ensuring accurate and efficient handling. The adhering part may involve mechanisms like suction, adhesive surfaces, or mechanical clamps to maintain the sample in place during processing. The apparatus is likely used in medical or diagnostic settings where precise fluid manipulation is required, such as in blood testing, biochemical analysis, or automated laboratory workflows. The integration of the processing and adhering components streamlines operations, reducing manual intervention and improving consistency in sample handling. This design addresses challenges in maintaining sample integrity and processing efficiency, particularly in high-throughput environments. The apparatus may also include additional features like sensors or actuators to monitor and control the processing steps, ensuring reliability and accuracy in the results.
16. A control method, comprising: in an information processing apparatus: picking up, by a sound pickup sensor of the information processing apparatus, audio data, wherein the sound pickup sensor is a type of sensor of a plurality of types of sensors of the information processing apparatus; controlling, by a control part of the information processing apparatus, process of the audio data; wirelessly transmitting, by a communicating part of the information processing apparatus, the audio data picked up by the sound pickup sensor to an outside of the information processing apparatus; controlling, by the control part, the plurality of types of sensors, a plurality of types of actuators of the information processing apparatus, and the communicating part; controlling, by the control part, at least one of turn on or turn off of each of the plurality of types of sensors and each of the plurality of types of actuators; controlling, by the control part, a reception process via the communicating part; supplying, by a power source part of the information processing apparatus, power to at least one of the sound pickup sensor, the communicating part, or the control part, wherein a housing part of the information processing apparatus accommodates therein at least one of the sound pickup sensor, the communicating part, the control part, or the power source part; and fixing, by an adhering part of the information processing apparatus, the housing part to a user at an adhesion point, wherein the control of the at least one of the turn on or the turn off is based on the adhesion point at which the housing part is fixed to the user.
This describes a control method for a body-worn information processing apparatus. The device captures audio data using a sound pickup sensor, which is one of several types of sensors. A control unit processes this audio and wirelessly transmits it externally via a communication module. The control unit manages the operation of all onboard sensors, actuators, and the communication module, including handling incoming wireless data. Critically, it intelligently determines which sensors and actuators to power on or off based on the specific location where the device's housing is adhered to the user's body. A power source supplies energy to essential components like the sound sensor, communication module, or control unit.
17. A non-transitory computer-readable medium having stored thereon computer-executable instructions which, when executed by an information processing apparatus, cause the information processing apparatus to execute operations, the operations comprising: picking up, by a sound pickup sensor of the information processing apparatus, audio data, wherein the sound pickup sensor is a type of sensor of a plurality of types of sensors of the information processing apparatus; controlling, by a control part of the information processing apparatus, process of the audio data; wirelessly transmitting, by a communicating part of the information processing apparatus, the audio data picked up by the sound pickup sensor to an outside of the information processing apparatus; controlling, by the control part, the plurality of types of sensors, a plurality of types of actuators of the information processing apparatus, and the communicating part; controlling, by the control part, a reception process via the communicating part; controlling, by the control part, at least one of turn on or turn off of each of the plurality of types of sensors and each of the plurality of types of actuators; and supplying, by a power source part of the information processing apparatus, power to at least one of the sound pickup sensor, the communicating part, or the control part, wherein a housing part of the information processing apparatus accommodates therein at least one of the sound pickup sensor, the communicating part, the control part, or the power source part, an adhering part of the information processing apparatus is configured to fix the housing part to a user at an adhesion point, and the control of the at least one of the turn on or the turn off is based on the adhesion point at which the housing part is fixed to the user.
This invention relates to a wearable information processing apparatus designed for audio data capture and wireless transmission, with adaptive sensor and actuator control based on the device's attachment location. The apparatus includes a sound pickup sensor, a control part, a wireless communication module, multiple sensors and actuators, a power source, and a housing. The housing is fixed to a user via an adhering part at a specific adhesion point, which determines the operational state of the sensors and actuators. The control part manages power distribution, sensor/actuator activation or deactivation, and data processing, while the communication module transmits audio data to external devices. The system dynamically adjusts functionality based on the adhesion point to optimize performance and energy efficiency. The power source supplies energy to the sound pickup sensor, communication module, control part, and other components housed within the apparatus. This design enables context-aware operation, ensuring efficient resource utilization and tailored functionality depending on where the device is worn.
18. An information processing apparatus, comprising: a sound pickup sensor configured to pick up audio data; a biological sensor configured to detect biological information of a user; a communicating part configured to wirelessly transmit the audio data picked up by the sound pickup sensor to an outside of the information processing apparatus; a control part configured to: control the sound pickup sensor and the communicating part; control process of the audio data based on the biological information detected by the biological sensor; control generation of an integrated signal; and control output of the integrated signal via the communicating part, wherein the integrated signal includes the audio data and the biological information, and the audio data is synchronized with the biological information in a temporal direction; a power source part configured to supply power to at least one of the sound pickup sensor, the communicating part, or the control part; a housing part that accommodates therein at least one of the sound pickup sensor, the communicating part, the control part, or the power source part; and an adhering part configured to fix the housing part to the user.
This invention relates to a wearable information processing apparatus designed to capture and transmit synchronized audio and biological data from a user. The device includes a sound pickup sensor to record audio data and a biological sensor to detect physiological information such as heart rate or movement. A wireless communication module transmits the audio data to an external system. A control unit manages the sensors, processes the audio data based on the biological information, and generates an integrated signal combining the synchronized audio and biological data. The integrated signal ensures temporal alignment between the audio and physiological data before transmission. The apparatus is powered by an internal power source and housed in a compact unit with an adhering mechanism to securely attach it to the user. This system enables real-time monitoring and analysis of audio and biological signals, useful in applications like healthcare, fitness tracking, or biometric authentication. The synchronization ensures accurate correlation between the user's audio and physiological responses, improving data reliability for subsequent analysis.
Unknown
December 15, 2020
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